Article

Studies on the Lygaeidae s. lat. (Heteroptera) of Gilan and the adjacent provinces in northern Iran

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Abstract

A list of 91 species of Lygaeidae s. lat. (subfamilies Lygaeinae, Orsillinae, Ischnorrhynchinae, Cyminae, Blissinae, Henestarinae, Artheneinae, Heterogastrinae, Oxycareninae, Pachygronthinae, Rhyparochrominae) from Gilan and the adjacent provinces is provided. The following 12 species and one subspe- cies are new for Iran: Arocatus melanocephalus (Fabricius, 1798), Kleidocerys privignus (Horváth, 1894), Cymus claviculus (Fallén, 1807), C. glandicolor Hahn, 1832, Geocoris (Geocoris) desertorum (Jakovlev, 1871), Holco cranum diminu- tum umbrinum Linnavuori, 1984, Platyplax salviae (Schilling, 1829), Macroplax fasciata fasciata (Herrich-Schaeffer, 1835), Auchenodes utu Linnavuori, 1984, Eremocoris abietis fraternus Horváth, 1883, Taphropeltus contractus (Herrich- Schaeffer, 1835), Rhyparochromus pini (Linnaeus, 1758), and Pachybrachius fracticollis (Schilling, 1829).

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... Biology: In Russia and the adjacent countries adults occur from mid May to end of October, larvae of the last instar were observed at the end of April; it overwinters in egg stage, though hibernation of larvae is also possible (Putshkov, 1962(Putshkov, , 1986. In Caucasus, Central Asia, and Iran the species is trofically bound mostly to Cynodon dactylon (Poaceae) (Putshkov, 1986;Linnavuori, 2004Linnavuori, , 2007Linnavuori, , 2012. It lives on sandy habitats, along sea coasts, water reservoirs and in river valleys in which it reaches high in the mountains (to 1000 m a.s.l.), as well as in inland salt semi-deserts and mountain steppes (Putshkov, 1986). ...
... In Egypt, Sudan, Iraq and Saudi Arabia found on grasses in fields, cultivated moist habitats and shores (Linnavuori, 1964(Linnavuori, , 1978(Linnavuori, , 1986(Linnavuori, , 1987(Linnavuori, , 1993. In Iran collected on Cynodon dactylon and other Poaceae in steppes as well as on shores of marshes and rivers (Linnavuori, 2004(Linnavuori, , 2007(Linnavuori, , 2012. Also collected at light (Priesner & Alfieri, 1953;Göllner-Scheiding, 1977). ...
... In Arabian Peninsula it was recorded from Oman, Saudi Arabia and Yemen, and it is also known from Iran (Dolling, 2006 Identification: Göllner-Scheiding (1977) (key to species for adults, redescription, figures), Putshkov (1986, as synonym of L. viridis (Jakovlev, 1873)) (key to genera for adults, larvae, and eggs), Moulet (1995a) (key to genera for adults and larvae, redescription), Namyatova (2005) (key to species, figures of male genitalia). Biology: Recorded in moist habitats on Aelurops littoralis (Poaceae) in Saudi Arabia and southern Iran (Linnavuori, 1986(Linnavuori, , 2007. In Khuzestan (Iran) found in gardens and meadows (Linnavuori, 2012). ...
... However, it builds only a small population in pistachio orchards, probably mainly due to the large amounts of chemical pesticides applied, particularly in early spring. A. minki pistaciae produces two generations a year and hibernates as the adult under the bark and in deep crevices in the stems and branches of the trees (Mehrnejad 2010a (Linnavuori and Modarres Awal 1998;Linnavuori 2007bLinnavuori , 2010. Campylomma verbasci may be considered a phyto-zoophagous insect (Niemczyk 1999). ...
... mutica (twigs and leaves). Remarks: Deraeocoris pilipes is distributed nearly throughout Iran, it was reported on Salix (Linnavuori and Modarres Awal 1999;Linnavuori 2007bLinnavuori , 2009Gharaat et al. 2009). A few bugs of this species were found on the wild pistachio trees P. atlantica subsp. ...
... Material examined: Many specimens, Rafsanjan, 16 May 2010, collected by light traps in pistachio orchards. Remarks: Deraeocoris punctulatus was distributed nearly throughout Iran (Linnavuori and Modarres Awal 1999;Linnavuori 2007bLinnavuori , 2009Gharaat et al. 2009). This bug was collected by light traps in pistachio orchards in Rafsanjan. ...
Article
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Hemipteran bugs are considered major pistachio pests, most of which belong to Miridae and Pentatomidae families. However, little information is available on phytophagous or predatory bugs associated with pistachio trees. The diversity and relative abundance of hemipterans on pistachio trees was monitored in both cultivated pistachio plantations and wild pistachio growing areas in Kerman province, Iran, from 2009 to 2012. The samplings were carried out randomly using a white beating tray in the cultivated pistachio plantations at the altitudes of 1150-1864m and in wild pistachio growing areas at the altitudes of 1800-2500 m. The present article records 37 hemipteran species of 29 genera and 7 families. These bugs were found to be associated with pistachio trees either as host plants, or host plants of their prey, or shelter plants. Biological information and notes on the present status, i.e. trophic level, relative abundance and economic importance, of the major species, including Anthocoris minki pistaciae Wagner, 1957, Campylomma diversicorne Reuter, 1878, Campylomma verbasci (Meyer-Dür, 1843), Farsiana pistaciae Linnavuori, 1998, Pseudoloxops sangrudanus Linnavuori, 2006, and Spilostethus (=Lygaeus) pandurus (Scopoli, 1763), are presented. In addition, the stink bug Acrosternum arabicum Wagner, 1959 was for the first time observed to be injurious to pistachio nuts in wide areas.
... Distribution : Iraq (Carapezza,etal.,2017) Belgium, Bulgaria, France, Germany, Italy, Russia, Spain, Egypt, Morocco, Tunisia, Syria, Turkey and Israel (Linnavuori, 2007), Iran (Khalaf, 1959). Distribution : Iraq (Péricart, 1998) Morocco, Spain, Syria, Algeria and Egypt (Linnavuori, 2007). ...
... Belgium, Bulgaria, France, Germany, Italy, Russia, Spain, Egypt, Morocco, Tunisia, Syria, Turkey and Israel (Linnavuori, 2007), Iran (Khalaf, 1959). Distribution : Iraq (Péricart, 1998) Morocco, Spain, Syria, Algeria and Egypt (Linnavuori, 2007). ...
Article
ABSTRACT : In the current study, there are 13 species diagnosed that belonging to 11 genera and 8 families for unknown specimens stored in Iraq Natural History Museum; these species are: Deraeocoris punctulatus (Fallén), Orthotylus caprai, Wagner, Beosus maritimus (Scopoli), Nysius ericae (Schilling), Nysius graminicola Kolenati, Horvathiolus superbus (Pollich), Engistus exsanguis Stål, Eysarcoris inconspicuous (Herrich-Schaeffer), Fromundus pygmaeus Dallas, Arenocoris intermedius (Jakovlev), Liorhyssus hyalinus (Fabricius) and Oxycarenus pallens (Herrich-Schaeffer). Deraeocoris ruber (Linnaeus) and Orthotylus caprai Wagner. The last three species are a new record of the faunal insect of Iraq; the geographical distribution of the species was given; the specimens are figured, furthermore; the first records in Iraq are supported by a brief description.
... Distribution : Iraq (Carapezza,etal.,2017) Belgium, Bulgaria, France, Germany, Italy, Russia, Spain, Egypt, Morocco, Tunisia, Syria, Turkey and Israel (Linnavuori, 2007), Iran (Khalaf, 1959). Distribution : Iraq (Péricart, 1998) Morocco, Spain, Syria, Algeria and Egypt (Linnavuori, 2007). ...
... Belgium, Bulgaria, France, Germany, Italy, Russia, Spain, Egypt, Morocco, Tunisia, Syria, Turkey and Israel (Linnavuori, 2007), Iran (Khalaf, 1959). Distribution : Iraq (Péricart, 1998) Morocco, Spain, Syria, Algeria and Egypt (Linnavuori, 2007). ...
Article
In the current study, there are 13 species diagnosed that belonging to 11 genera and 8 families for unknown specimens stored in Iraq Natural History Museum; these species are: Deraeocoris punctulatus (Fallén), Orthotylus caprai, Wagner, Beosus maritimus (Scopoli), Nysius ericae (Schilling), Nysius graminicola Kolenati, Horvathiolus superbus (Pollich), Engistus exsanguis Stål, Eysarcoris inconspicuous (Herrich-Schaeffer), Fromundus pygmaeus Dallas, Arenocoris intermedius (Jakovlev), Liorhyssus hyalinus (Fabricius) and Oxycarenus pallens (Herrich-Schaeffer). Deraeocoris ruber (Linnaeus) and Orthotylus caprai Wagner. The last three species are a new record of the faunal insect of Iraq; the geographical distribution of the species was given; the specimens are figured, furthermore; the first records in Iraq are supported by a brief description.
... have been described worldwide (Joseph, 2006). Of these, 45 species occur in the Palaearctic zoogeographic region (Protić, 2011), including 18 from Iran (Linnavuori, 1965;2007;. ...
... Complementary records of the species which were deposited in the Hayk Mirzayans Insect Museum (HMIM), collected from different climatic zones of Iran from 1950 to 2012, and related literature (e.g. Linnavuori, 1965;Linnavuori, 2007; were added to the above mentioned dataset. One hundred four records were used for the analysis ( Figure A1; Table A1). ...
Article
Several big-eyed bugs, Geocoris species, are abundant predators in many important agricultural cropping systems. Despite their apparent importance and high visibility little is known about their environmental relationships, niche overlap and species richness. To determine these ecological characteristics of five Geocoris species for use in conservation efforts an extensive sampling was done in 152 localities of Iran. A richness model was developed using a maximum entropy modeling approach (Maxent) and ArcGIS software for the five species based on collection records in conjunction with eight environmental variables. Maps for habitat overlap were created for paired species using ArcGIS 10.2 and ENMTools. The species displayed different overlapping niche ranges from 1.97% to 37.25% in pair-wise comparisons. For species richness three categories (habitats dominated by 0-1, 2-3, and 4-5 species) represented 38.44%, 46.07% and 15.49% of the modeled landscape respectively. A direct relationship was found between humidity and the number of species present in different locations. Understanding the degree of ecological overlap between the Geocoris species, and their effective predation of aphids and mites, is critical in designing biological control methods in agroecosystems.
... 21.VII.1984 (PÉRICART 1998a;HEISS 2002;LINNAVUORI 2007). ...
... N o t e : Holomediterranean species extending to Mid Asia, Indian subcontinent and the Sudan. On Centaurea (PÉRICART 1998b;HEISS 2002;LINNAVUORI 2007) and other Asteraceae. ...
... Neides afghanus Seidenstücker, 1968: 235 Distribution in Iran. Khorasan (Modarres Awal 1996 Linnavuori & Modarres Awal 1999), Tehran (Linnavuori 2007). General distribution. ...
... Distribution in Iran. East Azarbaijan, Semnan (Péricart 1984), Fars, Kerman (Linnavuori 2011), Guilan (Linnavuori 2007), Khorasan (Linnavuori & Modarres Awal 1999; Modarres Awal 2008). Josifov, 1965 ...
Article
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A list of Iranian Berytidae and Piesmatidae (Heteroptera: Lygaeoidea), with 25 species (16 species of Berytidae and 9 spe-cies of Piesmatidae), is given in this paper. Apoplymus pectoralis Fieber 1859, Berytinus clavipes (Fabricius 1775) (both Berytidae), Parapiesma kochiae (Becker 1867), and P. tenellum (Horváth 1906) (both Piesmatidae) are reported as new records for Iran.
... In order to determine the distribution model of Ad. lineolatus, L. pratensis, Ap. amygdali, Ne. viridula, and Ny. cymoides (Hoberlandt 1954(Hoberlandt , 1995Linnavuori 2007aLinnavuori , 2007bLinnavuori , 2008 (Figure 1) were used in the niche ecological modeling. The geographical coordinates for some localities were obtained and/or corrected using Google Earth (www.googleearth.com). ...
... amygdali. The pest has been recorded from most fields, semi-desert areas, and steppic areas of the Palaearctic region (Pericart 1999;Linnavuori 2007b). On the contrary, deserts, salt lakes, sand dune areas (Badripour 2004), and coastal arid regions (e.g., coast of Oman Sea) (Bakhtiyari 1998) are considered as unsuitable habitats. ...
Article
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Abstract In agroecosystems, potential species distribution models are extensively applied in pest management strategies, revealing species ecological requirements and demonstrating relationships between species distribution and predictive variables. The Maximum Entropy model was used to predict the potential distribution of five heteropteran key pests in Iran, namely Adelphocoris lineolatus (Goeze) (Hemiptera: Miridae), Lygus pratensis (L.), Apodiphus amygdali (Germar) (Hemiptera: Pentatomidae), Nezara viridula (L.), and Nysius cymoides (Spinola) (Hemiptera: Lygaeidae). A total of 663 samples were collected from different parts of Iran. The altitude and climate variable data were included in the analysis. Based on test and training data, the area under the receiver operating characteristic curve values were above 0.80, the binomial omission test with the lowest presence threshold for all species was statistically significant (< 0.01), and the test omission rates were less than 3%. The suitability of areas in Iran for A. amygdale (Germar) (Hemiptera: Pentatomidae), N. cymoides (Spinola) (Hemiptera: Lygaeidae), A. lineolatus (Goeze) (Hemiptera: Miridae), L. pratensis (L.), and N. viridula (L.) (Hemiptera: Pentatomidae), ranked as 78.86%, 68.78%, 43.29%, 20%, and 15.16%, respectively. In general, central parts of Iran including salt lakes, deserts, and sand dune areas with very high temperatures and windy weather were predicted to be less suitable, while other regions, mainly northern parts, were most suitable. These new data could be applied practically for the design of integrated pest management and crop development programs.
... Distribution in Iran. Alborz (Lindberg 1938;Farahbakhsh 1961), Ardabil (Modarres Awal 1987, 1997b, Bushehr (Linnavuori 2012), Chaharmahal & Bakhtiari (Safavi 1987), East Azarbaijan (Hoberlandt 1955;Wagner 1961;Farahbakhsh 1961;Safavi 1987;Modarres Awal 1997b;Khalilzadeh et al. 2007;Sadeghi et al. 2009;Gharaat et al. 2009;Hassazadeh et al. 2009a, b;Khaghaninia et al. 2010aKhaghaninia et al. , b, 2011, Fars (Wagner 1968;Safavi 1987;Modarres Awal 1997b;Linnavuori 2012), Golestan (Jakovlev 1880;Safavi 1987;Modarres Awal 1997b;Karimian & Khormali 2006;Ghahari et al. 2011), Guilan (Safavi 1987;Modarres Awal 1997b;Linnavuori 2007), Hamadan (Mirab-balou et al. 2007), Kerman (Zeinaddini et al. 2012), Khorasan (Wagner 1968;Modarres Awal 1996a, 1997b, 2008, Khuzestan, Kordestan (Safavi 1987;Modarres Awal 1997b;Linnavuori 2012), Mazandaran (Wagner 1968), Semnan (Ghahari et al. 2011), Tehran (Kerzhner & Rieger 1985;Safavi 1987;Modarres Awal 1997b;Linnavuori 2007), West Azarbaijan (Gharaat et al. 2009), Zanjan (Askari et al. 2009), Iran (no locality cited) (Sidenstücker 1957;Hoberlandt 1961;Kiritshenko 1966;Ahmad & Perveen 1987 sub P. psedoapterus;Moulet 1995;Kerzhner 2001;Yarmand et al. 2002). General distribution. ...
... Distribution in Iran. Alborz (Lindberg 1938;Farahbakhsh 1961), Ardabil (Modarres Awal 1987, 1997b, Bushehr (Linnavuori 2012), Chaharmahal & Bakhtiari (Safavi 1987), East Azarbaijan (Hoberlandt 1955;Wagner 1961;Farahbakhsh 1961;Safavi 1987;Modarres Awal 1997b;Khalilzadeh et al. 2007;Sadeghi et al. 2009;Gharaat et al. 2009;Hassazadeh et al. 2009a, b;Khaghaninia et al. 2010aKhaghaninia et al. , b, 2011, Fars (Wagner 1968;Safavi 1987;Modarres Awal 1997b;Linnavuori 2012), Golestan (Jakovlev 1880;Safavi 1987;Modarres Awal 1997b;Karimian & Khormali 2006;Ghahari et al. 2011), Guilan (Safavi 1987;Modarres Awal 1997b;Linnavuori 2007), Hamadan (Mirab-balou et al. 2007), Kerman (Zeinaddini et al. 2012), Khorasan (Wagner 1968;Modarres Awal 1996a, 1997b, 2008, Khuzestan, Kordestan (Safavi 1987;Modarres Awal 1997b;Linnavuori 2012), Mazandaran (Wagner 1968), Semnan (Ghahari et al. 2011), Tehran (Kerzhner & Rieger 1985;Safavi 1987;Modarres Awal 1997b;Linnavuori 2007), West Azarbaijan (Gharaat et al. 2009), Zanjan (Askari et al. 2009), Iran (no locality cited) (Sidenstücker 1957;Hoberlandt 1961;Kiritshenko 1966;Ahmad & Perveen 1987 sub P. psedoapterus;Moulet 1995;Kerzhner 2001;Yarmand et al. 2002). General distribution. ...
Article
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The species diversity of Pyrrhocoridae is cataloged in this paper. Seven species (from three genera: Aderrhis Bergroth 1906, Pyrrhocoris Fallén 1814, Scantius Stål 1866) are given as the fauna of Iran.
... Although there are several published studies examining the relationships among infrafamilial levels of the Coreoidea, a consensus regarding the relationships among different families and subfamily lineages has not been reached (Souza et al. 2009;Ghahari et al. 2012;Forthman et al. 2019). In addition, some studies support Aradoidea as sister group of Trichophora (which includes Pentatomoidea, Lygaeoidea, Pyrrhocoroidea and Coreoidea), but the relationship within Trichophora is still under debate (Li et al. 2005;Xie et al. 2005;Linnavuori 2007;Tian et al. 2011;Weirauch and Schuh 2011). ...
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Mitochondrial genomes (mitogenomes) are widely used in research studies on phylogenetic relationships and evolutionary history. Here, we sequenced and analyzed the mitogenome of the scentless plant bug Myrmus lateralis Hsiao, 1964 (Heteroptera, Rhopalidae). The complete 17,309 bp genome encoded 37 genes, including 13 protein-coding genes (PCGs), 22 transfer RNA (tRNA) genes, two ribosomal RNA (rRNA) genes, and a control region. The mitogenome revealed a high A+T content (75.8%), a positive AT-skew (0.092), and a negative GC-skew (–0.165). All 13 PCGs were found to start with ATN codons, except for cox1 , in which TTG was the start codon. The Ka/Ks ratios of 13 PCGs were all lower than 1, indicating that purifying selection evolved in these genes. All tRNAs could be folded into the typical cloverleaf secondary structure, except for trnS1 and trnV , which lack dihydrouridine arms. Phylogenetic trees were constructed and analyzed based on the PCG+rRNA from 38 mitogenomes, using maximum likelihood and Bayesian inference methods, showed that M. lateralis and Chorosoma macilentum Stål, 1858 grouped together in the tribe Chorosomatini. In addition, Coreoidea and Pyrrhocoroidea were sister groups among the superfamilies of Trichophora, and Rhopalidae was a sister group to Alydidae + Coreidae.
... Geocoris (Geocoris) pallidipennis (Costa, 1843) ( Figure 2A Distribution. Korea (new to Dokdo Islands), widely distributed in Europe, North Africa, and Asia (Slater 1964;Kim et al. 2012;Péricart 2001;Linnavuori 2007;NIBR 2020). ...
Article
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Dokdo, a group of oceanic islands located in the East Sea near Ulleungdo Island, Korea, has great biological and ecological diversity. The ecosystem of Dokdo is considered unique because the oceanic climate differs from that of mainland Korea, and the islands have remained isolated for an extended period due to its geographic features. Biological surveys of insects were conducted five times on Dongdo and twice on Seodo in 2019 and 2020. From these surveys, we could find a total of ten orders, 82 families, and 190 species of insects, including two newly described species: Geocoris (Geocoris) pallidipennis (Costa) (Hemiptera: Lygaeidae) and Tephrochlamys japonica (Okadome) (Diptera: Heleomyzidae). These survey results suggest that Dokdo is very important from both academic and conservation perspectives. Establishing a complete database of Dokdo insects will require continued investigations. Such a database would provide basic information for inferring correlations with mainland species.
... This species is distributed in Albania, Austria, Belgium. Bosnia, Bulgaria, Croatia, Czech Republic, Denmark, Finland, France, Germany, Greece, Hungary, Italy, Macedonia, Montenegro, Poland, Portugal, Romania, Russia, Serbia, Slovakia, Slovenia, Spain, Sweden, Switzerland (Péricart, 2001), Holo-palearctic and Pakistan and India (Linnavuori, 2007;2011) and Turkey (Lodos et al., 1999;Ulusoy et al., 1999;Özsaraç and Kıyak, 2001;Gençer et al., 2004;Kaya and Kovancı, 2004;Zobar and Kıvan, 2005;Önder et al., 2006;Demirözer and Karaca, 2011). ...
Article
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Since ancient times, people have been interested in parfumed and spicy plants and used them in many areas such as cosmetics, flavors, foodstuffs and dyes. The effects of plant extracts and essential oils derived from these plants on plant diseases and pests have been studied in detail for many years. The lavender is becoming one of the most important aromatic plants in Isparta province and there has recently been an increase in lavender plantations. However, there is limited or no any study on pests of lavender in Turkey. This study aimed at identifying insect that attack to lavender plants. The surveys were performed in two locations of Isparta province in Turkey between 2015-2016. The Insects on lavander plants were sampled by three different methods (sweep net, pitfall and direct plant sampling). The collected insects' samples were brought to the laboratory in the plastic containers. Once morphologically identified, the insects were sent to the authorities for species identification. As a result, some insects belonging to different orders (Orthoptera, Hemiptera, Coleoptera, Diptera, Lepidoptera, Hymenoptera) were determined. Poecilimon glandifer Karabağ (Orthoptera: Tettigoniidae), Cercopis vulnerata Rossi (Hemiptera: Cercopidae), Lepyronia coleoprata (L.), Neophilaenus lineatus (L.), Philaenus spumarius (L.), Philaenus spumarius (L.) (Hemiptera: Aphrophoridae), Atrococcus achillae (Kiritchenko) (Hemiptera: Pseudococcidae) were found to be the most common pest species in sampled lavender palants. Abstract e-ISSN : 2618-5946
... So far, the seed bug/rhyparochromid Lasiocoris crassicornis (Lucas, 1849) has been reported from Albania, Andorra, Bosnia and Herzegovina, Bulgaria, France, Greece (including the island of Crete), Italy (only from the islands of Sardinia and Sicily), North Macedonia, Romania, Russia (South-European part), Spain and Turkey (European part) in Europe; Algeria, Libya, Morocco and Tunisia in Northern Africa and Armenia, Azerbaijan, Iran, Syria and Turkey (Asian part) in Asia (Protić 1987, as Lasiocoris antennatus Montandon, 1889Péricart 1998Péricart , 2001Linnavuori 2007;Ghahari & Moulet 2012). ...
Article
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The first records of Lasiocoris crassicornis (Lucas, 1849) (Hemiptera: Heteroptera: Rhyparochromidae: Rhyparochrominae: Megalonotini) for Lebanon and Israel are reported. Information on the known distribution of the species is summarized .
... Overwintering of N. cymoides occurs at the adult stage (P ericart 1998). It is a Turano-Europeo-Mediterranean species (sensu Vigna Taglianti et al. 1992, widespread in regions facing the Mediterranean Basin and in continental areas; it is likewise present in a wide range of biotopes (P ericart 1998;Linnavuori 2007;Aukema 2013;Ryan 2017;GBIF 2018) where it causes economic plant loss and damage. Nysius cymoides is polyphagous and has been recorded on several plant species within different families (Table 1). ...
Article
The present article reviews the literature on the biology, pest status and management of Nysius cymoides (Spinola) (Hemiptera: Lygaeidae), an agricultural pest that causes damage to multiple crop species in the Middle East and in Europe, where it may become an emerging pest. The polyphagy of the species and its capability to give rise to outbreaks, mainly during warm and dry periods, make the insect a major pest in a number of countries, as are other species of the same genus. Following our overview of the known aspects, Integrated Pest Management options are discussed in practical terms, with biological features and pest management of other Nysius species also being considered. In order to prevent pest infestations, an integrated framework approach also needs to consider agronomic practices such as weed cover and soil management. Future research would benefit from an assessment of proper methodologies for monitoring N. cymoides and the establishment of economic thresholds for susceptible crops and life stages based on practical parameters.
... Currently, N. cymoides is distributed in the Holomediterranean region and extends to Central Europe, the African and Arabian deserts and Central Asia. It colonizes different habitats including plains and coastal salt dunes, and is found at altitude in alpine meadows (P ericart, 1998;Linnavuori, 2007;Bocchi et al., 2016). According to Rivnay (1962) (as cited in Bocchi et al., 2016), in a Mediterranean climate N. cymoides may have one generation per year while in tropical areas it may have more than one generation per year. ...
Article
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In June 2018 a serious infestation of chilli pepper plants and tomato seedlings was observed which caused major crop losses. This infestation was caused by Nysius cymoides (Heteroptera: Lygaeidae: Orsillinae). The insect was also seen nearby on barley and oilseed rape as well as on newly planted olive trees, acacia and some weeds. This is the first observation of such insect damage in Tunisia. A brief description of its morphology and the damage caused is given. The false chinch bug was treated with an imidacloprid‐based insecticide. En juin 2018, une grave infestation de plants de piment de Cayenne et de plants de tomate causée par Nysius cymoides (Heteroptera : Lygaeidae : Orsillinae) a été observée, provoquant d’importantes pertes de récoltes. Cet insecte a également été observé à proximité sur des cultures d'orge et de colza ainsi que sur de jeunes plants d’oliviers, des acacias et quelques adventices. Il s'agit de la première observation de dégâts causés par cet insecte en Tunisie. Cet article décrit brièvement la morphologie de cet organisme nuisible et les dégâts causés. La fausse punaise a été traitée avec un insecticide à base d'imidaclopride. В июне 2018 года наблюдалось серьёзное заражение растений перца чили и саженцев томата, что привело к значительным потерям урожая. Это было вызвано вредителем Nysius cymoides (Heteroptera: Lygaeidae: Orsillinae). Это насекомое также было замечено неподалеку на ячмене и масличном рапсе, а также на недавно посаженных оливковых деревьях, на акации и на некоторых сорняках. Это первое наблюдение об ущербе от этого насекомого в Тунисе. Дано краткое описание его морфологии и нанесённого ущерба. Против этого ложного клопа‐черепашки был применен инсектицид на основе имидаклоприда.
... The representatives of the subgenus Piocoris are distributed throughout the Palaearctic, reaching Sub-Saharan Africa and the western part of Indomalaya. Its type species, Geocoris (Piocoris) erythrocephalus (Lepeletier & Serville, 1825) is one of the most widely distributed species of Geocoris, ranging from the Mediterranean to Central Europe and the Middle East (Linnavuori 2007). Two varieties, G. erythrocephalus var. ...
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The validity and necessity of subspecies as a taxonomic category and the implications of the subspecies concept in various taxa of animals is subject of debates since its very existence. In case of the species of the lygaeoid subfamily Geocorinae there are multiple examples of species consisting of up to nine subspecies which were mostly described as varieties or forms before the middle of 20 th century, but upgraded to valid subspecies subsequently, usually without providing any arguments. As part of an integrated taxonomic study on the Palaearctic representatives of Geocorinae, the status of the sub-species of Geocoris (Piocoris) erythrocephalus (Lepeletier & Serville, 1825) was revisited. A critical review of the literature available and our studies, involving analysis of COI sequences, morphological examination and distribution data processing with the use of Geographic Information System, concluded that two of the three subspecies, G. e. erythrocephalus and G. e. marginellus Horváth, 1907, can be considered valid, while G. e. litoreus Horváth, 1895, is merely a phenotypically manifested infrasubspecific genetic variety of G. e. erythrocephalus, with no taxonomic value as it was suggested by earlier study of another author. Besides the interpretation of evidence, the applicability of the subspecies concept in Geocorinae is discussed as well.
... In Iran the false chinch bug, Nysius cymoides does occur in most provinces (Guilan, Mazandaran, Golestan, Ardebil, Zanjan, Tehran, Khuozestan, Semnan, North Khorasan, Qazvin) and the humid northen regions are the most suitable (Pericart 1999;Linnavuori 2007;Solhjouy-Fard et al. 2013). ...
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The false chinch bug, Nysius cymoides (Spinola) is a pest of sunflower attacking sunflower fields from their weedy and cultivated hosts. The effect of sunflower and wild mustard (wild host) on the life table parameters of N. cymoides was studied under laboratory conditions (24 ± 1°C, 65 ± 5% RH, a 16:8 h (L:D) photoperiod). Data were analysed based on the age-stage, two-sex life table theory. Developmental time (sum of incubation and nymphal periods) on wild mustard was longer than on sunflower with significant difference (P < 0.05). The adult longevity was significantly shorter on wild mustard than on sunflower. The adult pre-oviposition period (APOP), total pre-oviposition period (TPOP), mean fecundity and adult longevity reared on sunflower and wild mustard showed significant differences (P < 0.05). The highest fecundity (58.72 eggs) and the longest female longevity (68.09 days) were on sunflower and lowest fecundity (5.67 eggs) was on wild mustard. The intrinsic rate of increase (r) on sunflower was higher than that on wild mustard, as it was 0.0437 ± 0.0039 on sunflower and 0.00033 ± 0.00599 per day on wild mustard and net reproductive rate (R0) on sunflower and wild mustard was 12.94 ± 2.77 and 1.075 ± 0.34 (offspring), respectively. The mean generation time (T) was 58.01 ± 1.59 and 56.76 ± 2.43 days, on sunflower and wild mustard, respectively. The life expectancy (exj), survival rate (sxj), and cumulative reproductive rate (Rx) on sunflower were higher than wild mustard. The results showed that sunflower was more suitable host than wild mustard to N. cymoides. © 2016, Czech Academy of Agricultural Sciences. All rights reserved.
... In general, the central part of Iran was predicted to be the least suitable area, and the northern part was predicted to be the most suitable one. The pest has been recorded from most fields, semi-desert areas, and steppic areas of the Palaearctic region (Péricart 1999;Linnavuori 2007;Solhjouy-Fard et al. 2013). ...
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A list of 204 species of the Miridae from Gilan and the adjacent prov- inces of Iran is provided. The following 58 species are new for Iran: Adelphocoris vandalicus (Rossi, 1790), Anapus freyi (Fieber, 1864), Atractotomus mali (Meyer- Dür, 1843), Blepharidopterus angulatus (Fallén, 1807), Brachycoleus caucasicus (Poppius, 1912), Camptotylus linae (Puton, 1881), Campylomma annulicorne (Signoret, 1865), Compsidolon (Apsinthophylus) absinthii (Scott, 1870), C. (A.) nanno Linnavuori, 1971, Deraeocoris (Deraeocoris) rutilus (Herrich-Schaeffer, 1839), D. (D.) trifasciatus (Linnaeus, 1767), Ectagela aspera Linnavuori, 1984, Ephippiocoris lunatus Poppius, 1912, Eumecotarsus milidius Seidenstücker, 1980, Europiella albipennis (Fallén, 1829), E. alpina (Reuter, 1875), E. artemisiae (Becker, 1864), E. nigrocunealis (V. G. Putshkov, 1975), Euryopicoris nitidus (Meyer-Dür, 1843), Excentricus planicornis (Herrich-Schaeffer, 1836), Globiceps (Globiceps) coryli V. G. Putshkov, 1970, G. (G.) sphaegiformis (Rossi, 1790), G. (Kelidocoris) fulvicollis Jakovlev, 1877, Halticus apterus apterus (Linnaeus, 1758), H. darbandikhanus Linnavuori, 1984, H. macrocephalus Fieber, 1858, Lepidargyrus putshkovi Drapolyuk, 1993, Leptopterna putshkovi Vinokurov, 1982, Macrotylus (Alloeonycha) horvathi (Reuter, 1876), M. (Macrotylus) talhou- ki Wagner, 1976, Megacoelum infusum (Herrich-Schaeffer, 1839), M. pistaciae V. G. Putshkov, 1976, Nanopsallus carduellus (Horváth, 1888), Oncotylus (On- cotylus) nigdensis Linnavuori, 1961, O. (O.) viridifl avus longipes Wagner, 1954, Orthocephalus fulvipes Reuter, 1904, O. parvulus Reuter, 1891, O. saltator (Hahn, 1835), O. vittipennis (Herrich-Schaeffer, 1835), Orthonotus kiritshenkoi Josifov, 1964, Orthops (Orthops) basalis (A. Costa, 1853), Orthotylus (Orthotylus) margi- nalis Reuter, 1883, O. (O.) nassatus (Fabricius, 1787), O. (O.) populi Drapolyuk, 1991, Phytocoris (Ktenocoris) ulmi (Linnaeus, 1758), Pilophorus cinnamopterus (Kirschbaum, 1856), P. perplexus (Douglas & Scott, 1875), Pinalitus cervinus (Herrich-Schaeffer, 1841), Plagiognathus (Plagiognathus) zuvandiensis V. G. Putshkov, 1978, P. (Zophocnemis) bicolor (Jakovlev, 1880), Psallus (Mesopsallus) ambiguus (Fallén, 1807), P. (Psallus) cruentatus (Mulsant & Rey, 1852), P. (P. ) gidajatovi Drapolyuk, 1987, P. (P. ) salicis (Kirschbaum, 1856), P. (P. ) varians va-
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Alipanah, H. & Ustjuzhanin, P. 2005: An annotated list of the Pterophorinae (Oidaematophorini and Pterophorini) of Iran (Lepidoptera: Pterophoridae). — Entomol. Fennica 16: 0–00. A checklist of the 29 species of Pterophorinae (tribus Oiaematophorini and Pterophorini) of Iran is presented. Calyciphora golestanica sp. n., and the hith-erto unknown male of Merrifieldia farsi (Arenberger 1981) and the female of Tabulaephorus djebeli (Arenberger 1981) are described. Emmelina argoteles (Meyrick 1922) and Hellinsia pectodactylus (Staudinger 1859), are reported as new for Iran. The known distribution of each species is given.
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A list of Piesmatidae (1 species), Berytidae (5 species), Pyrrhocoridae (2 species), Stenocephalidae (4 species), Coreidae (18 species), Rhopalidae (20 species), Alydidae (3 species), Cydnidae (14 species), and Plataspidae (1 species) from the Iranian province of Gilan and adjacent provinces is published. The following four species are new for Iran: Parapiesma salsolae (Becker, 1867) (Piesmatidae), Chorosoma longicolle Reuter, 1900 (Rhopalidae), Tritomegas bicolor (Linnaeus, 1758) (Cydnidae), and Coptosoma scutellatum (Geoffroy, 1785) (Plataspidae).
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A list of the Miridae species of the Khorasan province in N.E. Iran is published. New synonymy: Orthotylus rudbaricus Linnavuori 1997 = O. turcmenorum Puchkov, 1976, syn.n.
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A list of 204 species of the Miridae from Gilan and the adjacent prov- inces of Iran is provided. The following 58 species are new for Iran: Adelphocoris vandalicus (Rossi, 1790), Anapus freyi (Fieber, 1864), Atractotomus mali (Meyer- Dür, 1843), Blepharidopterus angulatus (Fallén, 1807), Brachycoleus caucasicus (Poppius, 1912), Camptotylus linae (Puton, 1881), Campylomma annulicorne (Signoret, 1865), Compsidolon (Apsinthophylus) absinthii (Scott, 1870), C. (A.) nanno Linnavuori, 1971, Deraeocoris (Deraeocoris) rutilus (Herrich-Schaeffer, 1839), D. (D.) trifasciatus (Linnaeus, 1767), Ectagela aspera Linnavuori, 1984, Ephippiocoris lunatus Poppius, 1912, Eumecotarsus milidius Seidenstücker, 1980, Europiella albipennis (Fallén, 1829), E. alpina (Reuter, 1875), E. artemisiae (Becker, 1864), E. nigrocunealis (V. G. Putshkov, 1975), Euryopicoris nitidus (Meyer-Dür, 1843), Excentricus planicornis (Herrich-Schaeffer, 1836), Globiceps (Globiceps) coryli V. G. Putshkov, 1970, G. (G.) sphaegiformis (Rossi, 1790), G. (Kelidocoris) fulvicollis Jakovlev, 1877, Halticus apterus apterus (Linnaeus, 1758), H. darbandikhanus Linnavuori, 1984, H. macrocephalus Fieber, 1858, Lepidargyrus putshkovi Drapolyuk, 1993, Leptopterna putshkovi Vinokurov, 1982, Macrotylus (Alloeonycha) horvathi (Reuter, 1876), M. (Macrotylus) talhou- ki Wagner, 1976, Megacoelum infusum (Herrich-Schaeffer, 1839), M. pistaciae V. G. Putshkov, 1976, Nanopsallus carduellus (Horváth, 1888), Oncotylus (On- cotylus) nigdensis Linnavuori, 1961, O. (O.) viridifl avus longipes Wagner, 1954, Orthocephalus fulvipes Reuter, 1904, O. parvulus Reuter, 1891, O. saltator (Hahn, 1835), O. vittipennis (Herrich-Schaeffer, 1835), Orthonotus kiritshenkoi Josifov, 1964, Orthops (Orthops) basalis (A. Costa, 1853), Orthotylus (Orthotylus) margi- nalis Reuter, 1883, O. (O.) nassatus (Fabricius, 1787), O. (O.) populi Drapolyuk, 1991, Phytocoris (Ktenocoris) ulmi (Linnaeus, 1758), Pilophorus cinnamopterus (Kirschbaum, 1856), P. perplexus (Douglas & Scott, 1875), Pinalitus cervinus (Herrich-Schaeffer, 1841), Plagiognathus (Plagiognathus) zuvandiensis V. G. Putshkov, 1978, P. (Zophocnemis) bicolor (Jakovlev, 1880), Psallus (Mesopsallus) ambiguus (Fallén, 1807), P. (Psallus) cruentatus (Mulsant & Rey, 1852), P. (P. ) gidajatovi Drapolyuk, 1987, P. (P. ) salicis (Kirschbaum, 1856), P. (P. ) varians va-